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Magnetoelectric 3D Microenvironments for Tissue Engineering: A Comprehensive Review.

Roman Chernozem1, Yusheng Zhang2, Alina Urakova1

  • 1National Research Tomsk Polytechnic University, Tomsk 634050, Russia.

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|June 15, 2026
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Summary

Magnetoelectric (ME) scaffolds convert magnetic fields into electric stimuli for tissue engineering and biosensing. Advances enable tailored ME scaffolds, but challenges in biocompatibility and manufacturing remain for clinical translation.

Keywords:
biomaterialsfabricationmagnetoelectricsscaffoldstissue engineeringwireless electrostimulation

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Area of Science:

  • Biomaterials Science
  • Tissue Engineering
  • Nanotechnology

Background:

  • Magnetoelectric (ME) scaffolds offer unique capabilities by converting magnetic fields into localized electric stimuli.
  • This property is crucial for developing advanced microenvironments in tissue engineering (bone, skin, nerve repair) and other applications like biosensing and energy harvesting.
  • Exogenous electric potentials from ME scaffolds can accelerate healing, guide cellular behavior, and modulate immune responses.

Purpose of the Study:

  • To critically review fabrication methods for ME scaffolds with tailored structures and phase compositions.
  • To emphasize the multifunctionality and biomedical applications of these advanced materials.
  • To discuss current limitations and provide a future outlook for ME scaffold development.

Main Methods:

  • Review of recent advancements in material composition and hierarchical structuring of ME scaffolds.
  • Analysis of various fabrication technologies enabling control over biological interactions and functional outputs.
  • Examination of polymer- and hydrogel-based 3D constructions for ME microenvironments.

Main Results:

  • Recent progress has expanded the design space for ME scaffolds, enhancing control over biological interactions and functional outputs.
  • ME scaffolds show significant potential in tissue engineering, biosensing, energy harvesting, and the Internet of Things.
  • Tailored structures and phase compositions are key to optimizing ME scaffold performance.

Conclusions:

  • ME scaffolds are promising multifunctional platforms for regenerative medicine and advanced technological applications.
  • Addressing challenges in biocompatibility, stimulation efficiency, and scalable manufacturing is crucial for clinical translation.
  • Interdisciplinary integration and strategic design are essential to accelerate the development and application of ME microenvironments.